def draw(self):
scene.background(0, 0, 1) # 0,0,1 = blue
scene.stroke(1, 0, 0) # 1,0,0 = red
scene.stroke_weight(5)
scene.line(50, 50, 100, 50)
scene.line(100, 50, 75, 75)
scene.line(75, 75, 50, 50)
def draw(self):
scene.background(0,0,0)
scene.stroke_weight(4)
for colored_line in self.colored_lines:
scene.stroke(*colored_line.color)
scene.line(*colored_line.line)
def draw(self):
scene.background(0, 0, 0)
for c in self.cells.values():
if c.alive:
c.draw()
scene.stroke(1, 1, 1)
scene.stroke_weight(1)
scene.image(self.grid_img, 0, 0)
def draw(self):
scene.background(0, 0, 0)
for c in self.cells.values():
if c.alive:
c.draw()
scene.stroke(1,1,1)
scene.stroke_weight(1)
scene.image(self.grid_img, 0, 0)
def draw(self):
scene.background(0, 0, 0)
self.root_layer.update(self.dt)
self.root_layer.draw()
scene.fill(1, 1, 1)
scene.stroke(*self.stroke_color)
scene.stroke_weight(4)
scene.rect(0, 180, 320, 15)
scene.rect(0, 290, 320, 15)
scene.rect(92, 87, 15, 310)
scene.rect(208, 87, 15, 310)
for l in self.lines:
scene.line(*l)
def scene_draw(self):
if self.touch:
if (self.magnitude < 0.99 * self.max_length):
scene.stroke_weight(self.color['normal']['weight'])
scene.stroke(*self.color['normal']['stroke'])
scene.fill(*self.color['normal']['fill'])
else:
scene.stroke_weight(self.color['highlight']['weight'])
scene.stroke(*self.color['highlight']['stroke'])
scene.fill(*self.color['highlight']['fill'])
scene.ellipse(self.boundary['left'], self.boundary['lower'],
2.0 * self.max_length, 2.0 * self.max_length)
scene.line(self.ref_x, self.ref_y, self.clamp_x, self.clamp_y)
scene.text(self.label, x=self.ref_x, y=self.ref_y)
def draw(self):
if self.xy_velocity and not self.cur_touch:
#self.dx += self.xy_velocity[0] * self.dt
self.dy += self.xy_velocity[1] * self.dt
decay = exp( - self.dt / self.velocity_decay_timescale_seconds )
self.xy_velocity = (self.xy_velocity[0] * decay, self.xy_velocity[1] * decay)
if ((abs(self.xy_velocity[0]) <= self.min_velocity_points_per_second) and (abs(self.xy_velocity[1]) <= self.min_velocity_points_per_second)):
self.xy_velocity = None
# Get day of week...Monday=1, etc
day = datetime.datetime.today().isoweekday()
# Rotate a color for each day in week
r,g,b = get_background_color(day)
scene.background(r,g,b)
scene.translate(self.dx, self.dy)
scene.fill(1, 1, 1)
scene.stroke(1, 1, 1)
# Line thickness
scene.stroke_weight(1)
# Vertical lines
scene.line(-150,-931,-150,255)
scene.line(150,-931,150,255)
# Horizontal lines
scene.line(-150,255,150,255)
scene.line(-150,230,150,230)
scene.line(-150,60,150,60)
scene.line(-150,35,150,35)
scene.line(-150,-104,150,-104)
scene.line(-150,-241,150,-241)
scene.line(-150,-379,150,-379)
scene.line(-150,-517,150,-517)
scene.line(-150,-655,150,-655)
scene.line(-150,-794,150,-794)
scene.line(-150,-931,150,-931)
'''
Text will be white by default and
images drawn in their natural colors
unless tint(r,g,b,a) function is used
'''
scene.text(weather_now,font_size=12,x=-140,y=250, alignment=3)
scene.text(forecast,font_size=12,x=-140,y=55, alignment=3)
# Insert icons into scene
for i, image in enumerate(self.images):
scene.image(image,75,y[i])
def scene_draw(self):
if self.touch:
if not (int(self.x) or int(self.y)):
scene.stroke_weight(self.color['normal']['weight'])
scene.stroke(*self.color['normal']['stroke'])
scene.fill(*self.color['normal']['fill'])
else:
scene.stroke_weight(self.color['highlight']['weight'])
scene.stroke(*self.color['highlight']['stroke'])
scene.fill(*self.color['highlight']['fill'])
scene.rect(self.boundary['left'], self.boundary['lower'],
2.0 * self.max_length, 2.0 * self.max_length)
scene.line(self.clamp_x, self.boundary['upper'], self.clamp_x,
self.boundary['lower'])
scene.line(self.boundary['left'], self.clamp_y,
self.boundary['right'], self.clamp_y)
scene.text(self.label, x=self.ref_x, y=self.ref_y)
def scene_draw(self):
if self.touch:
scene.stroke_weight(self.color['highlight']['weight'])
scene.stroke(*self.color['highlight']['stroke'])
scene.fill(*self.color['highlight']['fill'])
scene.line(self.touch.location.x, self.respond_area['y1'],
self.touch.location.x, self.respond_area['y2'])
scene.line(self.respond_area['x1'], self.touch.location.y,
self.respond_area['x2'], self.touch.location.y)
else:
scene.stroke_weight(self.color['normal']['weight'])
scene.stroke(*self.color['normal']['stroke'])
scene.fill(*self.color['normal']['fill'])
scene.rect(self.respond_area['x1'], self.respond_area['y1'],
self.respond_area['x2'], self.respond_area['y2'])
scene.text(self.label,
x=self.respond_area['x1'],
y=self.respond_area['y1'])
def draw(self): self.prevmode = self.mode self.mode = 'off' for touch in touches: if touch.location in scene.Rect(*self.rect): self.mode = 'on' elif self.prevmode == 'on': self.mode = 'up' if self.mode == 'on': scene.fill(*self.altcolor) scene.tint(*self.alttxtcolor) scene.stroke(*self.altbordrcolor) else: scene.fill(*self.color) scene.tint(*self.txtcolor) scene.stroke(*self.bordrcolor) scene.stroke_weight(self.bordrw) scene.rect(*self.rect) scene.text(self.text, self.font, self.fontsize, self.rect[0] + self.rect[2] / 2, self.rect[1] + self.rect[3] / 2)
def scene_draw(self):
if not (self.touch or (self.toggle)):
scene.stroke_weight(self.color['normal']['weight'])
scene.stroke(*self.color['normal']['stroke'])
scene.fill(*self.color['normal']['fill'])
else:
scene.stroke_weight(self.color['highlight']['weight'])
scene.stroke(*self.color['highlight']['stroke'])
scene.fill(*self.color['highlight']['fill'])
scene.rect(self.respond_area['x1'] * self.scrnWdth,
self.respond_area['y1'] * self.scrnHght,
(self.respond_area['x2'] - self.respond_area['x1']) *
self.scrnWdth,
(self.respond_area['y2'] - self.respond_area['y1']) *
self.scrnHght)
scene.text(
self.label,
x=0.5 * (self.respond_area['x1'] + self.respond_area['x2']) *
self.scrnWdth,
y=0.5 * (self.respond_area['y1'] + self.respond_area['y2']) *
self.scrnHght,
)
def draw(self):
self.prevmode = self.mode
self.mode = 'off'
for touch in touches:
if touch.location in scene.Rect(*self.rect):
self.mode = 'on'
elif self.prevmode == 'on':
self.mode = 'up'
if self.mode == 'on':
scene.fill(*self.altcolor)
scene.tint(*self.alttxtcolor)
scene.stroke(*self.altbordrcolor)
else:
scene.fill(*self.color)
scene.tint(*self.txtcolor)
scene.stroke(*self.bordrcolor)
scene.stroke_weight(self.bordrw)
scene.rect(*self.rect)
scene.text(self.text, self.font, self.fontsize,
self.rect[0] + self.rect[2] / 2,
self.rect[1] + self.rect[3] / 2)
def draw(self):
if self.xy_velocity and not self.cur_touch:
#self.dx += self.xy_velocity[0] * self.dt
self.dy += self.xy_velocity[1] * self.dt
decay = exp( - self.dt / self.velocity_decay_timescale_seconds )
self.xy_velocity = (self.xy_velocity[0] * decay, self.xy_velocity[1] * decay)
if ((abs(self.xy_velocity[0]) <= self.min_velocity_points_per_second)
and (abs(self.xy_velocity[1]) <= self.min_velocity_points_per_second)):
self.xy_velocity = None
# Save battery life
#scene.frame_interval = 3
scene.translate(self.dx, self.dy)
scene.stroke(1, 1, 1)
# Line thickness
scene.stroke_weight(1)
# Get day of week...Monday=1, etc
day = datetime.datetime.today().isoweekday()
# Rotate a color for each day of week
r, g, b = get_background_color(day)
scene.background(r, g, b)
# Vertical lines for sides of main border
scene.line(-155, y1_y2[7], -155, 240)
scene.line(155, y1_y2[7], 155, 240)
# Horizontal line constants
x1 = -155
x2 = 155
'''
Set text size for best mix of space &
apperance...all text defaults to white unless
tint() is used.
'''
font_sz = 10
# Display city header and info
scene.line(x1, 240, x2, 240)
scene.text(city_name, font_size = font_sz * 2, x = 0, y = 220, alignment = 5)
scene.text(conditions, font_size = font_sz + 4, x = 0, y = 195, alignment = 5)
scene.text(temp_now, font_size = font_sz + 4, x = 0, y = 172, alignment = 5)
# Display header box and current conditions
scene.line(x1, 155, x2, 155)
scene.line(x1, 130, x2, 130)
scene.text(w, font_size = font_sz, x = -150, y = 150, alignment = 3)
# Display header box for 24 hr forecast
scene.line(x1, -40, x2, -40)
scene.text('Next 24 Hours:', font_size = font_sz, x = -150, y = -45, alignment = 3)
# Division lines for 24 hr forecast
y = -65
for i in range(4):
scene.line(x1, y, x2, y)
y = y - 80
# Divide 24 hrs into 4 rows of 6 hrs each
x = -205
y = -70
count = 0
the_x = []
the_y = []
for i in range(24):
# Display six hours per row
if count%6 == 0 and count <> 0:
x = -205
y = y - 80
x = x + 55
# Get coordinates for icon placement
the_x.append(x - 4)
the_y.append(y - 55)
count += 1
# Percent of precip...no zeros
if the_pops[i] == '0%':
the_pops[i] = ''
# Display hour, pop, & temp in grid
msg = '{}\n{}\n\n\n\n{}'.format(the_hours[i], the_pops[i], the_temps[i])
scene.text(msg, font_size = font_sz, x = x, y = y, alignment = 3)
# Insert icons into 24 hour forecast
for i, image in enumerate(self.images):
if i <= 23:
# Reduce icon size for space
scene.image(image, the_x[i], the_y[i], 30, 30)
# Display header box for extended forecast
scene.line(x1, -385, x2, -385)
scene.text('Next 7 Days:', font_size = font_sz, x = -150, y = -390, alignment = 3)
# Display extended forecast
scene.line(x1, -410, x2, -410)
scene.text(txt_wrapped_f, font_size = font_sz, x = -150, y = -402, alignment = 3)
# Insert icons into extended forecast
for i, image in enumerate(self.images):
if i >= 24:
# Tweak icon placement a bit more for best appearance
scene.image(image, 113, icon_y[i-24], 40, 40)
# Division lines for days of week
for i in range(len(y1_y2)):
if i > 0:
scene.line(x1, y1_y2[i], x2, y1_y2[i])
def line(pt1, pt2, w=1):
scene.stroke_weight(w)
scene.line(*pt1 + pt2)
def rect(rectangle, borderw=0, borderclr=(0, 0, 0)):
scene.stroke(*borderclr)
scene.stroke_weight(borderw)
scene.rect(*rectangle)
def ellipse(rectangle, borderw=0, borderclr=(0, 0, 0)): scene.stroke(*borderclr) scene.stroke_weight(borderw) scene.ellipse(*rectangle)
def rect(rectangle, borderw=0, borderclr=(0, 0, 0)): scene.stroke(*borderclr) scene.stroke_weight(borderw) scene.rect(*rectangle)
def line(pt1, pt2, w=1): scene.stroke_weight(w) scene.line(*pt1 + pt2)
def ellipse(rectangle, borderw=0, borderclr=(0, 0, 0)):
scene.stroke(*borderclr)
scene.stroke_weight(borderw)
scene.ellipse(*rectangle)
def draw(self):
scene.background(0,0,1) # 0,0,1 = blue
scene.stroke(1,0,0) # 1,0,0 = red
scene.stroke_weight(5)
scene.line(50,50,100,50)
scene.line(100,50,75,75)
def draw(self):
if self.xy_velocity and not self.cur_touch:
#self.dx += self.xy_velocity[0] * self.dt
self.dy += self.xy_velocity[1] * self.dt
decay = exp(-self.dt / self.velocity_decay_timescale_seconds)
self.xy_velocity = (self.xy_velocity[0] * decay,
self.xy_velocity[1] * decay)
if ((abs(self.xy_velocity[0]) <=
self.min_velocity_points_per_second)
and (abs(self.xy_velocity[1]) <=
self.min_velocity_points_per_second)):
self.xy_velocity = None
# Save battery life
#scene.frame_interval = 3
scene.translate(self.dx, self.dy)
scene.stroke(1, 1, 1)
# Line thickness
scene.stroke_weight(1)
scene.line(1, 25, 20, 25)
# Get day of week...Monday=1, etc
day = datetime.datetime.today().isoweekday()
# Rotate a color for each day of week
r, g, b = get_background_color(day)
scene.background(r, g, b)
# Vertical lines for sides of main border
scene.line(-155, y1_y2[7], -155, 240)
scene.line(155, y1_y2[7], 155, 240)
# Horizontal line constants
x1 = -155
x2 = 155
'''
Set text size for best mix of space &
apperance...all text defaults to white unless
tint() is used.
'''
font_sz = 10
# Display city header and info
scene.line(x1, 240, x2, 240)
scene.text(city_name, font_size=font_sz * 2, x=0, y=220, alignment=5)
scene.text(conditions, font_size=font_sz + 4, x=0, y=195, alignment=5)
scene.text(temp_now, font_size=font_sz + 4, x=0, y=172, alignment=5)
# Display header box and current conditions
scene.line(x1, 155, x2, 155)
scene.line(x1, 130, x2, 130)
scene.text(w, font_size=font_sz, x=-150, y=150, alignment=3)
# Display header box for 24 hr forecast
scene.line(x1, -40, x2, -40)
scene.text('Next 24 Hours:',
font_size=font_sz,
x=-150,
y=-45,
alignment=3)
# Division lines for 24 hr forecast
y = -65
for i in range(4):
scene.line(x1, y, x2, y)
y = y - 80
# Divide 24 hrs into 4 rows of 6 hrs each
x = -205
y = -70
count = 0
the_x = []
the_y = []
for i in range(24):
# Display six hours per row
if count % 6 == 0 and count <> 0:
x = -205
y = y - 80
x = x + 55
# Get coordinates for icon placement
the_x.append(x - 4)
the_y.append(y - 55)
count += 1
# Percent of precip...no zeros
if the_pops[i] == '0%':
the_pops[i] = ''
# Display hour, pop, & temp in grid
scene.text('{}\n{}\n\n\n\n{}'.format(the_hours[i], the_pops[i],
the_temps[i]),
font_size=font_sz,
x=x,
y=y,
alignment=3)
# Insert icons into 24 hour forecast
for i, image in enumerate(self.images):
if i <= 23:
# Reduce icon size for space
scene.image(image, the_x[i], the_y[i], 30, 30)
# Display header box for extended forecast
scene.line(x1, -385, x2, -385)
scene.text('Next 7 Days:',
font_size=font_sz,
x=-150,
y=-390,
alignment=3)
# Display extended forecast
scene.line(x1, -410, x2, -410)
scene.text(txt_wrapped_f,
font_size=font_sz,
x=-150,
y=-402,
alignment=3)
# Insert icons into extended forecast
for i, image in enumerate(self.images):
if i >= 24:
# Tweak icon placement a bit more for best appearance
scene.image(image, 113, icon_y[i - 24], 40, 40)
# Division lines for days of week
for i in range(len(y1_y2)):
if i > 0:
scene.line(x1, y1_y2[i], x2, y1_y2[i])
def draw(self):
if self.xy_velocity and not self.cur_touch:
#self.dx += self.xy_velocity[0] * self.dt
self.dy += self.xy_velocity[1] * self.dt
decay = exp(-self.dt / self.velocity_decay_timescale_seconds)
self.xy_velocity = (self.xy_velocity[0] * decay,
self.xy_velocity[1] * decay)
if ((abs(self.xy_velocity[0]) <=
self.min_velocity_points_per_second)
and (abs(self.xy_velocity[1]) <=
self.min_velocity_points_per_second)):
self.xy_velocity = None
# Save battery life
#scene.frame_interval = 3
scene.translate(self.dx, self.dy)
scene.stroke(1, 1, 1)
# Line thickness
scene.stroke_weight(1)
scene.line(1, 25, 20, 25)
# Get day of week...Monday=1, etc
day = datetime.datetime.today().isoweekday()
# Rotate a color for each day of week
r, g, b = self.get_background_color(day)
scene.background(r, g, b)
'''
Set text size for best mix of space &
apperance...all text defaults to white unless
tint() is used.
'''
font_sz = 10
x1 = -((self.size.w / 2) - 2) # -205 for iP6p, -158 for iP5
x2 = (self.size.w / 2) - 2 # 205 for iP6p, 158 for iP5
# If Pythonista 2 & iPhone 6+ or larger...
if py_ver == '2' and is_P6:
y_anchor = 325
l_margin = x1 + 10
# 24 hour temps in a 3x8 matrix
rows = 3
hrs_per_row = 8
else:
y_anchor = 240
l_margin = x1 + 8
# 24 hour temps in a 4x6 matrix
rows = 4
hrs_per_row = 6
# Vertical lines for sides of main border
scene.line(x1, y1_y2[7], x1, y_anchor)
scene.line(x2, y1_y2[7], x2, y_anchor)
# Display city header and info
scene.line(x1, y_anchor, x2, y_anchor)
scene.text(city_name,
font_size=font_sz * 2,
x=0,
y=y_anchor - 20,
alignment=5)
scene.text(conditions,
font_size=font_sz + 4,
x=0,
y=y_anchor - 45,
alignment=5)
scene.text(temp_now,
font_size=font_sz + 4,
x=0,
y=y_anchor - 68,
alignment=5)
# Display header box and current conditions
scene.line(x1, y_anchor - 85, x2, y_anchor - 85)
scene.line(x1, y_anchor - 110, x2, y_anchor - 110)
l_margin = x1 + 10
scene.text(w,
font_size=font_sz,
x=l_margin,
y=y_anchor - 90,
alignment=3)
# Display header box for 24 hr forecast
scene.line(x1, y_anchor - 280, x2, y_anchor - 280)
scene.text('Next 24 Hours:',
font_size=font_sz,
x=l_margin,
y=y_anchor - 285,
alignment=3)
# Division lines for 24 hr forecast
# Divide 24 hrs into 'rows' rows of 'hrs_per_row' hrs each
y = y_anchor - 305
for i in range(int(rows)):
scene.line(x1, y, x2, y)
y = y - 80
x = x1 - 45
y = y_anchor - 310
count = 0
the_x = []
the_y = []
for i in range(24):
# Display 'hrs_per_row' hours per row
if count % int(hrs_per_row) == 0 and count <> 0:
x = x1 - 45
y = y - 80
x = x + 53
# Get coordinates for icon placement
the_x.append(x - 4)
the_y.append(y - 55)
count += 1
# Percent of precip...no zeros
if the_pops[i] == '0%':
the_pops[i] = ''
# Display hour, pop, & temp in grid
scene.text('{}\n{}\n\n\n\n{}'.format(the_hours[i], the_pops[i],
the_temps[i]),
font_size=font_sz,
x=x,
y=y,
alignment=3)
# Insert icons into 24 hour forecast
for i, image in enumerate(self.images):
if i <= 23:
# Reduce icon size for space
scene.image(image, the_x[i], the_y[i], 30, 30)
if py_ver == '2' and is_P6:
# Display header box for extended forecast
scene.line(x1, y_anchor - 545, x2, y_anchor - 545)
scene.text('Next 7 Days:',
font_size=font_sz,
x=l_margin,
y=y_anchor - 550,
alignment=3)
# Display extended forecast
scene.line(x1, y_anchor - 570, x2, y_anchor - 570)
scene.text(txt_wrapped_f,
font_size=font_sz,
x=l_margin,
y=y_anchor - 563,
alignment=3)
else:
# Display header box for extended forecast
scene.line(x1, y_anchor - 625, x2, y_anchor - 625)
scene.text('Next 7 Days:',
font_size=font_sz,
x=l_margin,
y=y_anchor - 630,
alignment=3)
# Display extended forecast
scene.line(x1, y_anchor - 650, x2, y_anchor - 650)
scene.text(txt_wrapped_f,
font_size=font_sz,
x=l_margin,
y=y_anchor - 643,
alignment=3)
# Insert icons into extended forecast
for i, image in enumerate(self.images):
if i >= 24:
# Tweak icon placement a bit more for best appearance
if wa.pythonista_version()[:1] == '2' and wa.is_iP6p():
scene.image(image, 160, icon_y[i - 24], 40, 40)
else:
scene.image(image, 113, icon_y[i - 24], 40, 40)
# Division lines for days of week
for i in range(len(y1_y2)):
if i > 0:
scene.line(x1, y1_y2[i], x2, y1_y2[i])
def draw(self):
if self.xy_velocity and not self.cur_touch:
#self.dx += self.xy_velocity[0] * self.dt
self.dy += self.xy_velocity[1] * self.dt
decay = exp( - self.dt / self.velocity_decay_timescale_seconds )
self.xy_velocity = (self.xy_velocity[0] * decay, self.xy_velocity[1] * decay)
if ((abs(self.xy_velocity[0]) <= self.min_velocity_points_per_second) and (abs(self.xy_velocity[1]) <= self.min_velocity_points_per_second)):
self.xy_velocity = None
# Save battery life
#scene.frame_interval = 3
scene.translate(self.dx, self.dy)
scene.stroke(1, 1, 1)
# Line thickness
scene.stroke_weight(1)
scene.line(1, 25, 20, 25)
# Get day of week...Monday=1, etc
day = datetime.datetime.today().isoweekday()
# Rotate a color for each day of week
r, g, b = self.get_background_color(day)
scene.background(r, g, b)
'''
Set text size for best mix of space &
apperance...all text defaults to white unless
tint() is used.
'''
font_sz = 10
x1 = - ((self.size.w / 2) -2) # -205 for iP6p, -158 for iP5
x2 = (self.size.w / 2) -2 # 205 for iP6p, 158 for iP5
# If Pythonista 2 & iPhone 6+ or larger...
if py_ver == '2' and is_P6:
y_anchor = 325
l_margin = x1 + 10
# 24 hour temps in a 3x8 matrix
rows = 3
hrs_per_row = 8
else:
y_anchor = 240
l_margin = x1 + 8
# 24 hour temps in a 4x6 matrix
rows = 4
hrs_per_row = 6
# Vertical lines for sides of main border
scene.line(x1, y1_y2[7], x1, y_anchor)
scene.line(x2, y1_y2[7], x2, y_anchor)
# Display city header and info
scene.line(x1, y_anchor, x2, y_anchor)
scene.text(city_name, font_size = font_sz * 2, x = 0, y = y_anchor - 20, alignment = 5)
scene.text(conditions, font_size = font_sz + 4, x = 0, y = y_anchor - 45, alignment = 5)
scene.text(temp_now, font_size = font_sz + 4, x = 0, y = y_anchor - 68, alignment = 5)
# Display header box and current conditions
scene.line(x1, y_anchor - 85, x2, y_anchor - 85)
scene.line(x1, y_anchor - 110, x2, y_anchor - 110)
l_margin = x1 + 10
scene.text(w, font_size = font_sz, x = l_margin, y = y_anchor - 90, alignment = 3)
# Display header box for 24 hr forecast
scene.line(x1, y_anchor - 280, x2, y_anchor - 280)
scene.text('Next 24 Hours:', font_size = font_sz, x = l_margin, y = y_anchor - 285, alignment = 3)
# Division lines for 24 hr forecast
# Divide 24 hrs into 'rows' rows of 'hrs_per_row' hrs each
y = y_anchor - 305
for i in range(int(rows)):
scene.line(x1, y, x2, y)
y = y - 80
x = x1 - 45
y = y_anchor - 310
count = 0
the_x = []
the_y = []
for i in range(24):
# Display 'hrs_per_row' hours per row
if count%int(hrs_per_row) == 0 and count <> 0:
x = x1 - 45
y = y - 80
x = x + 53
# Get coordinates for icon placement
the_x.append(x - 4)
the_y.append(y - 55)
count += 1
# Percent of precip...no zeros
if the_pops[i] == '0%':
the_pops[i] = ''
# Display hour, pop, & temp in grid
scene.text('{}\n{}\n\n\n\n{}'.format(the_hours[i], the_pops[i], the_temps[i]), font_size = font_sz, x = x, y = y, alignment = 3)
# Insert icons into 24 hour forecast
for i, image in enumerate(self.images):
if i <= 23:
# Reduce icon size for space
scene.image(image, the_x[i], the_y[i], 30, 30)
if py_ver == '2' and is_P6:
# Display header box for extended forecast
scene.line(x1, y_anchor - 545, x2, y_anchor - 545)
scene.text('Next 7 Days:', font_size = font_sz, x = l_margin, y = y_anchor - 550, alignment = 3)
# Display extended forecast
scene.line(x1, y_anchor - 570, x2, y_anchor - 570)
scene.text(txt_wrapped_f, font_size = font_sz, x = l_margin, y = y_anchor - 563, alignment = 3)
else:
# Display header box for extended forecast
scene.line(x1, y_anchor - 625, x2, y_anchor - 625)
scene.text('Next 7 Days:', font_size = font_sz, x = l_margin, y = y_anchor - 630, alignment = 3)
# Display extended forecast
scene.line(x1, y_anchor - 650, x2, y_anchor - 650)
scene.text(txt_wrapped_f, font_size = font_sz, x = l_margin, y = y_anchor - 643, alignment = 3)
# Insert icons into extended forecast
for i, image in enumerate(self.images):
if i >= 24:
# Tweak icon placement a bit more for best appearance
if wa.pythonista_version()[:1] == '2' and wa.is_iP6p():
scene.image(image, 160, icon_y[i - 24], 40, 40)
else:
scene.image(image, 113, icon_y[i - 24], 40, 40)
# Division lines for days of week
for i in range(len(y1_y2)):
if i > 0:
scene.line(x1, y1_y2[i], x2, y1_y2[i])
